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  1. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  2. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  3. Heuristic (Ecogeographic rules 🌍)

    A heuristic or heuristic technique is any approach to problem solving that employs a pragmatic method that is not necessarily optimized, perfected, or rationalized, but is nevertheless "good enough" as an approximation or attribute substitution. Where finding an optimal solution is impossible or impractical, heuristic methods can be use...

    en.wikipedia.org/wiki/Heuristic

    #Heuristic #Adages #Heuristics #RulesOfThumb #BiologicalRules #EcogeographicRules

  4. Heuristic (Ecogeographic rules 🌍)

    A heuristic or heuristic technique is any approach to problem solving that employs a pragmatic method that is not necessarily optimized, perfected, or rationalized, but is nevertheless "good enough" as an approximation or attribute substitution. Where finding an optimal solution is impossible or impractical, heuristic methods can be use...

    en.wikipedia.org/wiki/Heuristic

    #Heuristic #Adages #Heuristics #RulesOfThumb #BiologicalRules #EcogeographicRules

  5. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  6. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  7. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  8. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  9. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  10. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  11. Rapoport's rule (Ecogeographic rules 🌍)

    Rapoport's rule is an ecogeographical rule that states that latitudinal ranges of plants and animals are generally smaller at lower latitudes than at higher latitudes.

    en.wikipedia.org/wiki/Rapoport

    #RapoportSRule #SystemsEcology #EcogeographicRules #EvolutionaryBiology

  12. Rapoport's rule (Ecogeographic rules 🌍)

    Rapoport's rule is an ecogeographical rule that states that latitudinal ranges of plants and animals are generally smaller at lower latitudes than at higher latitudes.

    en.wikipedia.org/wiki/Rapoport

    #RapoportSRule #SystemsEcology #EcogeographicRules #EvolutionaryBiology

  13. Gloger's rule (Ecogeographic rules 🌍)

    Gloger's rule is an ecogeographical rule which states that within a species of endotherms, more heavily pigmented forms tend to be found in more humid environments, e.g. near the equator. It was named after the zoologist Constantin Wilhelm Lambert Gloger, who first remarked upon this phenomenon in 1833 in a review of covariation of climate and avian ...

    en.wikipedia.org/wiki/Gloger's

    #GlogerSRule #Zoology #AnimalCoatColors #EcogeographicRules

  14. Gloger's rule (Ecogeographic rules 🌍)

    Gloger's rule is an ecogeographical rule which states that within a species of endotherms, more heavily pigmented forms tend to be found in more humid environments, e.g. near the equator. It was named after the zoologist Constantin Wilhelm Lambert Gloger, who first remarked upon this phenomenon in 1833 in a review of covariation of climate and avian ...

    en.wikipedia.org/wiki/Gloger's

    #GlogerSRule #Zoology #AnimalCoatColors #EcogeographicRules

  15. Gloger's rule (Ecogeographic rules 🌍)

    Gloger's rule is an ecogeographical rule which states that within a species of endotherms, more heavily pigmented forms tend to be found in more humid environments, e.g. near the equator. It was named after the zoologist Constantin Wilhelm Lambert Gloger, who first remarked upon this phenomenon in 1833 in a review of covariation of climate and avian ...

    en.wikipedia.org/wiki/Gloger's

    #GlogerSRule #Zoology #AnimalCoatColors #EcogeographicRules

  16. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  17. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  18. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  19. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  20. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  21. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  22. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  23. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  24. Jordan's rule (Ecogeographic rules 🌍)

    Jordan's rule is an ecogeographical rule that describes the inverse relationship between water temperature and meristic characteristics in various species of fish. The most commonly observed relationship is that fin ray, vertebrae, or scale numbers increase with decreasing temperature. The rule is named after David Starr Jordan, the father of American ichthyology....

    en.wikipedia.org/wiki/Jordan's

    #JordanSRule #Ichthyology #EcogeographicRules

  25. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  26. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  27. Heuristic (Ecogeographic rules 🌍)

    A heuristic or heuristic technique is any approach to problem solving that employs a pragmatic method that is not fully optimized, perfected, or rationalized, but is nevertheless "good enough" as an approximation or attribute substitution. Where finding an optimal solution is impossible or impractical, heuristic methods can be used to s...

    en.wikipedia.org/wiki/Heuristic

    #Heuristic #Adages #Heuristics #RulesOfThumb #BiologicalRules #EcogeographicRules

  28. Heuristic (Ecogeographic rules 🌍)

    A heuristic or heuristic technique is any approach to problem solving that employs a pragmatic method that is not fully optimized, perfected, or rationalized, but is nevertheless "good enough" as an approximation or attribute substitution. Where finding an optimal solution is impossible or impractical, heuristic methods can be used to s...

    en.wikipedia.org/wiki/Heuristic

    #Heuristic #Adages #Heuristics #RulesOfThumb #BiologicalRules #EcogeographicRules

  29. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  30. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  31. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  32. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  33. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  34. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  35. Foster's rule (Ecogeographic rules 🌍)

    Foster's rule, also known as the island rule or the island effect, is an ecogeographical rule in evolutionary biology stating that members of a species get smaller or bigger depending on the resources available in the environment. For example, it is known that pygmy mammoths evolved from normal mammoths on sm...

    en.wikipedia.org/wiki/Foster's

    #FosterSRule #AnimalSize #InsularEcology #EcogeographicRules #EcologyTerminology #EvolutionaryBiology

  36. Foster's rule (Ecogeographic rules 🌍)

    Foster's rule, also known as the island rule or the island effect, is an ecogeographical rule in evolutionary biology stating that members of a species get smaller or bigger depending on the resources available in the environment. For example, it is known that pygmy mammoths evolved from normal mammoths on sm...

    en.wikipedia.org/wiki/Foster's

    #FosterSRule #AnimalSize #InsularEcology #EcogeographicRules #EcologyTerminology #EvolutionaryBiology

  37. Thorson's rule (Ecogeographic rules 🌍)

    Thorson's rule is an ecogeographical rule which states that benthic marine invertebrates at low latitudes tend to produce large numbers of eggs developing to pelagic ) and widely dispersing larvae, whereas at high latitudes such organisms tend to produce fewer and larger lecithotrophic eggs and larger offspring, often by viviparity or ovoviviparity, which are often brooded.

    en.wikipedia.org/wiki/Thorson'

    #ThorsonSRule #EcogeographicRules

  38. Thorson's rule (Ecogeographic rules 🌍)

    Thorson's rule is an ecogeographical rule which states that benthic marine invertebrates at low latitudes tend to produce large numbers of eggs developing to pelagic ) and widely dispersing larvae, whereas at high latitudes such organisms tend to produce fewer and larger lecithotrophic eggs and larger offspring, often by viviparity or ovoviviparity, which are often brooded.

    en.wikipedia.org/wiki/Thorson'

    #ThorsonSRule #EcogeographicRules

  39. Thorson's rule (Ecogeographic rules 🌍)

    Thorson's rule is an ecogeographical rule which states that benthic marine invertebrates at low latitudes tend to produce large numbers of eggs developing to pelagic ) and widely dispersing larvae, whereas at high latitudes such organisms tend to produce fewer and larger lecithotrophic eggs and larger offspring, often by viviparity or ovoviviparity, which are often brooded.

    en.wikipedia.org/wiki/Thorson'

    #ThorsonSRule #EcogeographicRules

  40. Thorson's rule (Ecogeographic rules 🌍)

    Thorson's rule is an ecogeographical rule which states that benthic marine invertebrates at low latitudes tend to produce large numbers of eggs developing to pelagic ) and widely dispersing larvae, whereas at high latitudes such organisms tend to produce fewer and larger lecithotrophic eggs and larger offspring, often by viviparity or ovoviviparity, which are often brooded.

    en.wikipedia.org/wiki/Thorson'

    #ThorsonSRule #EcogeographicRules

  41. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  42. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  43. Deep-sea gigantism (Ecogeographic rules 🌍)

    In zoology, deep-sea gigantism or abyssal gigantism is the tendency for species of deep-sea dwelling animals to be larger than their shallower-water relatives across a large taxonomic range. Proposed explanations for this type of gigantism include necessary adaptation to colder temperature, food scarcity, reduced predation pressure ...

    en.wikipedia.org/wiki/Deep-sea

    #DeepSeaGigantism #AnimalSize #MarineOrganisms #EcogeographicRules

  44. Bergmann's rule (Ecogeographic rules 🌍)

    Bergmann's rule is an ecogeographical rule that states that, within a broadly distributed taxonomic clade, populations and species of larger size are found in colder environments, while populations and species of smaller size are found in warmer regions. The rule derives from the relationship between size in linear dimensions meaning tha...

    en.wikipedia.org/wiki/Bergmann

    #BergmannSRule #AnimalSize #EcogeographicRules #LawsOfThermodynamics

  45. Bergmann's rule (Ecogeographic rules 🌍)

    Bergmann's rule is an ecogeographical rule that states that, within a broadly distributed taxonomic clade, populations and species of larger size are found in colder environments, while populations and species of smaller size are found in warmer regions. The rule derives from the relationship between size in linear dimensions meaning tha...

    en.wikipedia.org/wiki/Bergmann

    #BergmannSRule #AnimalSize #EcogeographicRules #LawsOfThermodynamics

  46. Bergmann's rule (Ecogeographic rules 🌍)

    Bergmann's rule is an ecogeographical rule that states that, within a broadly distributed taxonomic clade, populations and species of larger size are found in colder environments, while populations and species of smaller size are found in warmer regions. The rule derives from the relationship between size in linear dimensions meaning tha...

    en.wikipedia.org/wiki/Bergmann

    #BergmannSRule #AnimalSize #EcogeographicRules #LawsOfThermodynamics

  47. Bergmann's rule (Ecogeographic rules 🌍)

    Bergmann's rule is an ecogeographical rule that states that, within a broadly distributed taxonomic clade, populations and species of larger size are found in colder environments, while populations and species of smaller size are found in warmer regions. The rule derives from the relationship between size in linear dimensions meaning tha...

    en.wikipedia.org/wiki/Bergmann

    #BergmannSRule #AnimalSize #EcogeographicRules #LawsOfThermodynamics

  48. Bergmann's rule (Ecogeographic rules 🌍)

    Bergmann's rule is an ecogeographical rule that states that, within a broadly distributed taxonomic clade, populations and species of larger size are found in colder environments, while populations and species of smaller size are found in warmer regions. The rule derives from the relationship between size in linear dimensions meaning tha...

    en.wikipedia.org/wiki/Bergmann

    #BergmannSRule #AnimalSize #EcogeographicRules #LawsOfThermodynamics

  49. Bergmann's rule (Ecogeographic rules 🌍)

    Bergmann's rule is an ecogeographical rule that states that, within a broadly distributed taxonomic clade, populations and species of larger size are found in colder environments, while populations and species of smaller size are found in warmer regions. The rule derives from the relationship between size in linear dimensions meaning tha...

    en.wikipedia.org/wiki/Bergmann

    #BergmannSRule #AnimalSize #EcogeographicRules #LawsOfThermodynamics

  50. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  51. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  52. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  53. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  54. Allen's rule (Ecogeographic rules 🌍)

    Allen's rule is an ecogeographical rule formulated by Joel Asaph Allen in 1877, broadly stating that animals adapted to cold climates have shorter and thicker limbs and bodily appendages than animals adapted to warm climates. More specifically, it states that the body surface-area-to-volume ratio for homeothermic animals varies with the average temperature of the habi...

    en.wikipedia.org/wiki/Allen's_

    #AllenSRule #Physiology #EcogeographicRules

  55. Thorson's rule (Ecogeographic rules 🌍)

    Thorson's rule is an ecogeographical rule which states that benthic marine invertebrates at low latitudes tend to produce large numbers of eggs developing to pelagic ) and widely dispersing larvae, whereas at high latitudes such organisms tend to produce fewer and larger lecithotrophic eggs and larger offspring, often by viviparity or ovoviviparity, which are often brooded.

    en.wikipedia.org/wiki/Thorson'

    #ThorsonSRule #EcogeographicRules

  56. Thorson's rule (Ecogeographic rules 🌍)

    Thorson's rule is an ecogeographical rule which states that benthic marine invertebrates at low latitudes tend to produce large numbers of eggs developing to pelagic ) and widely dispersing larvae, whereas at high latitudes such organisms tend to produce fewer and larger lecithotrophic eggs and larger offspring, often by viviparity or ovoviviparity, which are often brooded.

    en.wikipedia.org/wiki/Thorson'

    #ThorsonSRule #EcogeographicRules

  57. Gloger's rule (Ecogeographic rules 🌍)

    Gloger's rule is an ecogeographical rule which states that within a species of endotherms, more heavily pigmented forms tend to be found in more humid environments, e.g. near the equator. It was named after the zoologist Constantin Wilhelm Lambert Gloger, who first remarked upon this phenomenon in 1833 in a review of covariation of climate and avian ...

    en.wikipedia.org/wiki/Gloger's

    #GlogerSRule #Zoology #AnimalCoatColors #EcogeographicRules

  58. Gloger's rule (Ecogeographic rules 🌍)

    Gloger's rule is an ecogeographical rule which states that within a species of endotherms, more heavily pigmented forms tend to be found in more humid environments, e.g. near the equator. It was named after the zoologist Constantin Wilhelm Lambert Gloger, who first remarked upon this phenomenon in 1833 in a review of covariation of climate and avian ...

    en.wikipedia.org/wiki/Gloger's

    #GlogerSRule #Zoology #AnimalCoatColors #EcogeographicRules

  59. Gloger's rule (Ecogeographic rules 🌍)

    Gloger's rule is an ecogeographical rule which states that within a species of endotherms, more heavily pigmented forms tend to be found in more humid environments, e.g. near the equator. It was named after the zoologist Constantin Wilhelm Lambert Gloger, who first remarked upon this phenomenon in 1833 in a review of covariation of climate and avian ...

    en.wikipedia.org/wiki/Gloger's

    #GlogerSRule #Zoology #AnimalCoatColors #EcogeographicRules

  60. Island rule (Ecogeographic rules 🌍)

    Foster's rule, also known as the island rule or the island effect, is an ecogeographical rule in evolutionary biology stating that members of a species get smaller or bigger depending on the resources available in the environment. For example, it is known that pygmy mammoths evolved from normal mammoths on small i...

    en.wikipedia.org/wiki/Island_r

    #IslandRule #AnimalSize #InsularEcology #EcogeographicRules #EcologyTerminology #EvolutionaryBiology